Course Summary
Learn about the design, operation, and applications of MOSFETs in this comprehensive course, which includes hands-on projects and simulations.Key Learning Points
- Understand the basic principles of MOSFETs and their operation
- Design and simulate MOSFET circuits using SPICE
- Explore advanced MOSFET applications, including amplifiers and switching circuits
Related Topics for further study
Learning Outcomes
- Design and simulate MOSFET circuits
- Understand the operation and applications of MOSFETs
- Apply MOSFETs in advanced circuits and systems
Prerequisites or good to have knowledge before taking this course
- Basic knowledge of electronics
- Access to SPICE simulation software
Course Difficulty Level
IntermediateCourse Format
- Online
- Self-paced
Similar Courses
- Introduction to Semiconductor Devices
- Advanced Analog Circuit Design
Notable People in This Field
- Professor of Electrical Engineering
- Director of Research and Development, Analog Devices
Related Books
Description
PLEASE NOTE: This version of the course has been formed from an earlier version, which was actively run by the instructor and his teaching assistants. Some of what is mentioned in the video lectures and the accompanying material regarding logistics, book availability and method of grading may no longer be relevant to the present version. Neither the instructor nor the original teaching assistants are running this version of the course. There will be no certificate offered for this course.
Outline
- About This Course and Overview of the MOS Transistor
- About This Course
- Intuitive Overview of the MOS Transistor
- Read First: Course Information
- Preliminaries and Background
- CMOS Processes
- Semiconductors - Part 1
- Semiconductors - Part 2
- Semiconductors - Part 3
- Conduction – Part 1
- Conduction – Part 2
- Contact Potentials
- pn Junctions – Zero and Forward Bias
- pn Junctions –Under Reverse Bias – Part 1
- pn Junctions –Under Reverse Bias – Part 2
- Problem Set 1
- The Two-Terminal and Three-Terminal MOS Structures
- The Two-Terminal MOS Structure – Flatband Voltage
- The Two-Terminal MOS Structure – Surface Condition
- The Two-Terminal MOS Structure – General Analysis
- The Two-Terminal MOS Structure – Inversion
- The Two-Terminal MOS Structure – Strong Inversion
- The Two-Terminal MOS Structure – Weak Inversion
- The Two-Terminal MOS Structure – Small-Signal Capacitance
- The Three-Terminal MOS Structure – Part 1
- The Three-Terminal MOS Structure – Part 2
- Problem Set 2
- The Long-Channel MOS Transistor – Part 1
- Introduction
- Complete All-Region Model
- Simplified All-Region Models
- Strong Inversion Models – 1
- Strong Inversion Models – 2
- The Long-Channel MOS Transistor – Part 2
- Strong Inversion Models
- Weak Inversion Models
- Source Reference vs. Body Reference
- Effective Mobility
- Additional Topics
- Problem Set 3
- Small-Dimension Effects 1
- Small-Dimension Effects - Velocity Saturation
- Small-Dimension Effects – Channel Length Modulation
- Small-Dimension Effects - Charge Sharing
- Small-Dimension Effects – Drain-Induced Barrier Lowering
- Small-Dimension Effects – Combining Several Effects Into One Model
- Small-Dimension Effects – Hot Carrier Effects
- Small-Dimension Effects - Velocity Overshoot and Ballistic Operation
- Small-Dimension Effects - Polysilicon Depletion
- Midterm
- Small-Dimension Effects 2; Modeling for Circuits Simulation
- Small-Dimension Effects - Quantum-Mechanical Effects; Gate Current
- Small-Dimension Effects – Junction Leakage
- Small-Dimension Effects - Scaling and New Technologies
- Modeling for Circuit Simulation – Approaches and Properties of Good Models
- Modeling for Circuit Simulation – Model Formulation Considerations
- Modeling for Circuit Simulation – Parameter Extraction 1
- Modeling for Circuit Simulation – Parameter Extraction 2
- Modeling for Circuit Simulation – Representative Compact Models
- Modeling for Circuit Simulation – Benchmark Tests
- Large-Signal Dynamic Operation
- Large-Signal Dynamic Operation – Quasi-Static Operation
- Large-Signal Dynamic Operation – Terminal Currents in QS Operation
- Large-Signal Dynamic Operation – Charging Currents in QS Operation
- Large-Signal Dynamic Operation – Evaluation of Charges
- Large-Signal Dynamic Operation – Transit Time
- Large-Signal Dynamic Operation – Transient Response Using QS Modeling
- Large-Signal Dynamic Operation – Non-Quasi-Static Operation
- Large-Signal Dynamic Operation – Extrinsic Parasitics
- Small-Signal Modeling I
- Small-Signal Modeling – Conductance Parameter Definitions and Equivalent Circuits
- Small-Signal Modeling – Conductance Parameters Due to Gate and Body Leakage
- Small-Signal Modeling –Transconductance
- Small-Signal Modeling – Source-Drain and Output Conductance
- Small-Signal Modeling – Capacitance Definitions and Equivalent Circuits
- Small-Signal Modeling – Capacitance Evaluation and Properties
- Small-Signal Modeling II
- Small-Signal Modeling – Complete Capacitance Parameter Set
- Small-Signal Modeling – Complete Quasi-Static Model
- Small-Signal Modeling – y-Parameter Model
- Small-Signal Modeling – Non-Quasi-Static Model
- Small-Signal Modeling – Model Comparison
- Small-Signal Modeling – RF Models
- Problem Set 9 Preamble
- Problem Set 4
- Final Exam
- Final Exam
- End of Course
- Noise - Introduction
- Noise - Thermal Noise
- Noise - High-Frequency Considerations
- Noise - Flicker Noise
- Ion Implantation – Threshold Adjust Implant
- Halo Implants
- Well Proximity Effect
- Stress Effects
- Statistical Variability
- Epilogue
Summary of User Reviews
Discover the fundamentals of MOSFET technology in this comprehensive course on Coursera. Students gave this course high ratings for its detailed explanations and real-world applications. One key aspect that many users thought was good is the hands-on practice with MOSFETs.Pros from User Reviews
- Detailed explanations of MOSFET technology
- Real-world applications that make the content relevant
- Hands-on practice with MOSFETs
- Excellent course structure and pacing
- Engaging and knowledgeable instructors
Cons from User Reviews
- Some users found the course too technical
- Limited discussion of alternative technologies
- Not suitable for beginners without a background in electronics
- Some users found the assignments challenging
- No certificate of completion offered for free
Yannis Tsividis
4.6 Raiting
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